Title :
Sustaining the Si revolution: challenges and opportunities
Author_Institution :
Electr. Eng., UC Berkeley Microfabrication Lab., CA, USA
fDate :
30 June-2 July 2003
Abstract :
Continual advances in planar process technology enabled MOSFET gate lengths to reach below 100 nm in integrated circuits produced at the turn of the century, and will likely support MOSFET scaling into the sub-10 nm regime within the next 10 years. Gains in circuit performance will not be as straightforward to achieve as had been in the past, however, due to fundamental issues such as statistical dopant fluctuations, parasitic resistance and capacitance, and carrier velocity limits. This paper will first describe how these issues can be mitigated to allow transistor scaling to reach the quantum-mechanical limit. It will then discuss alternative approaches to achieving gains in system performance and cost as the era of transistor scaling draws to a close. Opportunities for research will be described.
Keywords :
MOSFET; capacitance; elemental semiconductors; monolithic integrated circuits; scaling circuits; silicon; 10 nm; MOSFET gate lengths; Si; Si revolution; capacitance; carrier velocity limits; integrated circuits; parasitic resistance; planar process technology; quantum-mechanical limit; statistical dopant fluctuations; transistor scaling; Circuit optimization; Fluctuations; Immune system; Integrated circuit technology; Laboratories; MOSFET circuits; Parasitic capacitance; Performance gain; System performance; Thin film transistors;
Conference_Titel :
University/Government/Industry Microelectronics Symposium, 2003. Proceedings of the 15th Biennial
Print_ISBN :
0-7803-7972-1
DOI :
10.1109/UGIM.2003.1225685